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3ephemeralwnd said:Oh, thank you
Ive gotten to a point where (x-2) cancels out, and i can sub in x=2 without the denominator coming out as undefined..
But I'm still not sure where to go from here
fzero said:Does writing
[tex]\sqrt{ax +b} -3 = \sqrt{a(x-2) + b+2a} -3[/tex]
give you any ideas?
nddancer said:I'm not sure how sqr.rt.((x-2) + b + 2a) shows me how to get there from the original numerator. What did you multiply, or how did you substitute?
nddancer said:I figured out how you rewrote the numerator, and I was able to eliminate the (x-2) in the numerator and denominator. I am now left with (3a+b-3)/sqr.rt.(b+2a+3) = 4. Do you have any hints as to what comes after that?
The purpose of solving for constants a and b is to determine the specific values that will make the function approach a certain limit. This can help us understand the behavior of the function and make predictions about its values at different points.
To solve for constants a and b, we use algebraic techniques such as substitution, elimination, and manipulation of equations. We can also use graphical methods to visually determine the values.
Some common strategies for solving for constants a and b include using the definition of a limit, factoring, and setting up a system of equations. It is also helpful to use known properties of functions, such as symmetry and continuity, to simplify the problem.
Yes, calculus can be used to solve for constants a and b given the limit of a function. This involves using techniques such as differentiation and integration to manipulate the function and determine the values of a and b.
There may be limitations to solving for constants a and b when dealing with more complex functions or when the limit is undefined. In these cases, it may be necessary to use numerical methods or approximation techniques to find the values of a and b.